In the rapidly evolving world of unmanned aerial vehicles (UAVs), or drones, the skies are getting busier, and so are the challenges. With drones buzzing around for everything from infrastructure monitoring to parcel delivery, the need for effective traffic management is becoming increasingly critical. This is where the work of Fabio Suim Chagas from the Laboratory of Artificial Intelligence, Robotics and Cybernetics (LIARC) at the Military Institute of Engineering (IME) in Rio de Janeiro, Brazil, comes into play.
Chagas and his team are tackling the issue of drone deconfliction—ensuring that drones don’t bump into each other or manned aircraft—using artificial intelligence (AI). Their research, published in the journal ‘Automation’ (translated from the original German title ‘Automatisierung’), is a comprehensive review of AI approaches for UAV deconfliction, categorizing them into deep learning, reinforcement learning, and bio-inspired learning.
So, what does this mean for the maritime sector? Well, imagine a port where drones are constantly monitoring cargo, inspecting infrastructure, or even delivering supplies. With the increase in drone traffic, the risk of mid-air collisions also rises. This is where AI-driven deconfliction systems come in. They can help manage drone traffic more efficiently, reducing the risk of accidents and ensuring smooth operations.
Chagas explains, “The increasing capabilities of UAVs are opening up diverse business opportunities. However, this growth introduces significant safety concerns, particularly in managing the separation between drones and manned aircraft.” His team’s research is a step towards addressing these safety concerns, paving the way for safer and more efficient drone operations.
The commercial impacts of this research are substantial. As the maritime industry increasingly adopts drone technology, the need for effective traffic management will only grow. AI-driven deconfliction systems can help mitigate risks, ensuring that drones can be used safely and effectively in maritime operations.
Moreover, the research also presents opportunities for innovation. As Chagas points out, “Various research efforts have addressed this deconfliction challenge, but a critical need remains for improved automated solutions at both strategic and tactical levels.” This opens up avenues for companies to develop and commercialize advanced AI solutions for drone deconfliction.
In essence, Chagas’s work is not just about managing drone traffic; it’s about enabling the safe and efficient use of drones in the maritime sector. And as the industry continues to embrace drone technology, the importance of such research will only grow. So, while the skies may be getting busier, with the right tools and technologies, they can also be safer and more efficient.

